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Hormuz

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Journal Article
Published: 29 February 2024
Geochemistry: Exploration, Environment, Analysis (2024) 24 (1): geochem2023-002.
...Atefeh Fakhri-Doodoui; Masood Alipour-Asll Abstract The Hormuz Island banded iron formations (HIBIFs) are situated at the Zagros Folded Zone in southern Iran. The BIFs occur intercalated with the Neoproterozoic Hormuz series, an evaporite and siliciclastic succession with pyroclastic rocks...
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Journal Article
Published: 14 August 2017
Petroleum Geoscience (2018) 24 (2): 143–158.
...S. A. Stewart Abstract This study uses previously unpublished reflection seismic data and wells to map part of the western margin of the Hormuz salt basin for the first time, and to link Hormuz facies distribution to the evolution of major structures in NE Saudi Arabia. Most of these major...
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Journal Article
Published: 01 February 2011
Petroleum Geoscience (2011) 17 (1): 101–107.
...Mohammad Alsouki; Mohammad Ali Riahi; Ali Yassaghi Abstract ABSTRACT A detailed interpretation of seismic data has been carried out to analyse salt diapirism in the Straits of Hormuz in the Persian Gulf. Salt diapirs in the Zagros Foldbelt are mainly characterized by structures formed...
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Journal Article
Published: 15 January 2010
Geological Magazine (2010) 147 (4): 497–507.
...SOUMYAJIT MUKHERJEE; CHRISTOPHER J. TALBOT; HEMIN A. KOYI Abstract The parabolic surface profiles of the Hormuz and Namakdan salt diapirs in the Persian Gulf suggest that they have been extruding with Newtonian viscous rheologies for the last 10 4 years. We derive velocity profiles...
Journal Article
Published: 01 September 2003
Journal of the Geological Society (2003) 160 (5): 719–733.
...Abbas Bahroudi; HeminA. Koyi Abstract Scaled analogue models of thin-skinned simultaneous shortening above adjacent viscous and frictional décollements simulate the effect of Hormuz salt on the shortening in the Zagros fold and thrust belt. The models consisted of sand layers that partly overlay...
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Journal Article
Published: 01 September 1988
Journal of the Geological Society (1988) 145 (5): 831–845.
... of Petroleum Geologists, Bulletin 1969 53 626 71 Journal of the Geological Society, London, Vol. 145, 1988, pp. 831-845, 11 figs. Printed in Northern Ireland Structure of the Musandam culmination (Sultanate of Oman and United Arab Emirates) and the Straits of Hormuz syntaxis M . P. SEARLE Department...
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Geological map of the study area in the SW of Hormuz Island, showing BIFs and their positions in relation to other rocks.
Published: 29 February 2024
Fig. 2. Geological map of the study area in the SW of Hormuz Island, showing BIFs and their positions in relation to other rocks.
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Macrophotographs and microphotographs of the Hormuz Island rock samples: (a, b) porphyritic rhyolite to rhyodacite lava flows; (c, d) altered rhyolitic tuff; (e, f) iron oxide-rich tuffaceous shale; (g, h) sandy limestone cutted by iron oxide veins; (i, j) nummulite-bearing sandy marl. Afs, alkali feldspar; Ap, apatite; Cal, calcite; Clay, clay minerals; Ms, muscovite; Opq, opaque minerals; Pl, plagioclase; Ser, sericite; Qz, quartz. Source: mineral abbreviations are according to Whitney and Evans (2010).
Published: 29 February 2024
Fig. 5. Macrophotographs and microphotographs of the Hormuz Island rock samples: ( a , b ) porphyritic rhyolite to rhyodacite lava flows; ( c , d ) altered rhyolitic tuff; ( e , f ) iron oxide-rich tuffaceous shale; ( g , h ) sandy limestone cutted by iron oxide veins; ( i , j ) nummulite
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Subregional reflection seismic section (a) and interpretation (b) trending from the onshore in the SW on the left-hand side, and towards the NE crossing the coastline to the offshore (location shown in Fig. 2). The AFK High is host to the Abu Hadriya–Fadhili–Khursaniyah fields, all of which are outside of this line of section. This section, and the others in this paper, is composited from 3D and 2D surveys. This section features the only seismically imaged Hormuz salt intrusion (as interpreted) onshore Saudi Arabia. Overall, the section shows a variation in style from the Hormuz salt basin (e.g. Karan salt-cored fold), towards the SW across the original Hormuz basin margin and beyond to areas of Hormuz non-deposition, where the Phanerozoic rests directly upon pre-Hormuz basement. The colour coding in this and the other regional seismic lines presented in this paper ties to the megasequences highlighted in Figure 3. The timeslice in (a) shows a plan view of the Karan structure at 2 s TWT. This timeslice intersects Permian and Triassic strata; top Hormuz is much deeper, therefore the salt is not visible. Inset seismic in (b) the Hormuz basin margin shows shingled, possibly clinoformal stratal patterns. Cambrian–Devonian interpretation is largely obscured by seismic multiples, and is based on subtle reflections and offset well control. VE, vertical exaggeration.
Published: 14 August 2017
of which are outside of this line of section. This section, and the others in this paper, is composited from 3D and 2D surveys. This section features the only seismically imaged Hormuz salt intrusion (as interpreted) onshore Saudi Arabia. Overall, the section shows a variation in style from the Hormuz salt
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(a) 2D seismic line showing the Hormuz salt just beneath the Z structure. (b) Base map showing location of the 2D seismic line (bold white line).
Published: 01 June 2017
Figure 6. (a) 2D seismic line showing the Hormuz salt just beneath the Z structure. (b) Base map showing location of the 2D seismic line (bold white line).
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Seismic evidence of activity of Hormuz salt during the (a) Early Paleozoic and (b) Mesozoic times.
Published: 01 June 2017
Figure 7. Seismic evidence of activity of Hormuz salt during the (a) Early Paleozoic and (b) Mesozoic times.
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(A) Regional map of the Persian Gulf region and the Hormuz salt distributions, modified after Bahroudi and Koyi (2003). The location of the study area is highlighted in the dashed square. (B) Index map highlights location of the Gulf region and the geologic traverse in Figure 1C. (C) Geologic traverse (XX′) shows the sedimentary successions above Hormuz salt, modified from Konert et al. (2001), courtesy of GeoArabia, and after Alsharhan and Nairn (1997).
Published: 01 February 2016
Figure 1. (A) Regional map of the Persian Gulf region and the Hormuz salt distributions, modified after Bahroudi and Koyi (2003) . The location of the study area is highlighted in the dashed square. (B) Index map highlights location of the Gulf region and the geologic traverse in Figure 1C. (C
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Halokinetic origin of field B. (a) Hormuz salt basins of Arabian Gulf (Alsharhan and Kendall, 1986). The study area lies at the edge of the western Gulf Salt Basin and is probably underlain by thin Hormuz salt, (b) field B resembles the salt-cored Dukhan structure in Qatar (mapped at the same scale), and (c) the field B structure may be created by salt withdrawal from a rim syncline to the east.
Published: 27 August 2014
Figure 14. Halokinetic origin of field B. (a) Hormuz salt basins of Arabian Gulf ( Alsharhan and Kendall, 1986 ). The study area lies at the edge of the western Gulf Salt Basin and is probably underlain by thin Hormuz salt, (b) field B resembles the salt-cored Dukhan structure in Qatar (mapped
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Map of the study area showing Hormuz and Larak salt-cored islands and a hidden Hormuz Salt diapir. Note the distribution of the islands and the hidden salt diapirs along the NE-trending fault zones.
Published: 01 February 2011
Fig. 2 Map of the study area showing Hormuz and Larak salt-cored islands and a hidden Hormuz Salt diapir. Note the distribution of the islands and the hidden salt diapirs along the NE-trending fault zones.
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Location of the study area (Straits of Hormuz) in the NE margin of Arabian Plate within the Zagros Fold–Thrust Belt (ZFTB).
Published: 01 February 2011
Fig. 1 Location of the study area (Straits of Hormuz) in the NE margin of Arabian Plate within the Zagros Fold–Thrust Belt (ZFTB).
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Neoproterozoic – Early Cambrian Hormuz Salt Basin was a hyper-saline basin in a rift terrane. It was subdivided into three sub-basins of salt deposition; (1) South Gulf, (2) North Gulf and (3) Widyan Basins by (4) the Qatar Arch and (5) the Amar Arc. Facies patterns suggest that the basin was open to normal marine water toward the northeast (6) and that clastic facies were deposited along the shoreline toward the west and northwest (7). Faults (black, dashed lines), Hormuz lithofacies and locations of salt diapers are from Talbot and Alavi (1996, their figure 10). Faults (black, solid lines) are from Al-Husseini (2004, his figure 2, map of mid-Carboniferous outcrop, Saudi Arabia). Neoproterozoic – Early Cambrian lithofacies in Iraq (yellow [clastic] and pink [salt] diagonal striped polygons) are from Jassim and Goff (2006, their figure 8-2). The location of Amar Arc is from Al-Husseini (2000, his figure 1). The western and southern Gulf boundaries are generalized from depth to basement map in Konert et al. (2001, their figure 2). Jabal Sanam is the isolated salt diaper located in southern Iraq.
Published: 01 October 2010
Figure 3: Neoproterozoic – Early Cambrian Hormuz Salt Basin was a hyper-saline basin in a rift terrane. It was subdivided into three sub-basins of salt deposition; (1) South Gulf, (2) North Gulf and (3) Widyan Basins by (4) the Qatar Arch and (5) the Amar Arc. Facies patterns suggest
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Subaerially exposed extrusive Hormuz salt sheets in the Zagros foreland in Iran. (a) Extrusive salt sheet sourced from the Kuh-e-Namak (Dashti, western Fars) salt dome. This outcrop view shows the south of two salt glaciers flowing from this salt plug. The feeder for the sheet is below the summit dome in the upper right of the photograph, and the main salt glacier flows off to the right. The remnant of the salt preserved on the canyon wall suggests that the present subsidiary flow is a wasted remnant of a much larger salt glacier. Dissolution produced residual gypsite soil, but only scattered patches of this soil remain because of erosion by rainfall runoff. (b) Satellite image of two salt sheets in central Fars, emerging from Zagros anticlines. Courtesy of ExxonMobil.
Published: 01 October 2006
Figure 4 Subaerially exposed extrusive Hormuz salt sheets in the Zagros foreland in Iran. (a) Extrusive salt sheet sourced from the Kuh-e-Namak (Dashti, western Fars) salt dome. This outcrop view shows the south of two salt glaciers flowing from this salt plug. The feeder for the sheet is below
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 Inferred evolution of extrusions of Hormuz salt in the Zagros from superposed profiles (after fig. 3, Talbot 1998). (a) Salt domes and fountains (b) Degraded salt droplets inside a dashed profile of a viscous droplet (Huppert 1982),
Published: 01 March 2004
Fig. 1.  Inferred evolution of extrusions of Hormuz salt in the Zagros from superposed profiles (after fig. 3, Talbot 1998 ). ( a ) Salt domes and fountains ( b ) Degraded salt droplets inside a dashed profile of a viscous droplet ( Huppert 1982 ),
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Approximate present-day distribution of infra-Cambrian Ara and Hormuz salt in the Arabian Peninsula and southwest Iran. The Precambrian-Cambrian Boundary is defined in the Birba and Mukhaizina wells in the South Oman Salt Basin (SOSB).
Published: 01 October 2003
Figure 1: Approximate present-day distribution of infra-Cambrian Ara and Hormuz salt in the Arabian Peninsula and southwest Iran. The Precambrian-Cambrian Boundary is defined in the Birba and Mukhaizina wells in the South Oman Salt Basin (SOSB).
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 Distribution of the Hormuz salt and major structural domains (the Laristan domain, the Fars platform, the Kazerun–Mangarak, Izeh and Lorestan domains, and the Dezful embayment) and main faults (the Razak, Nezamabad, Kazerun and Bala Rud faults) along the Zagros belt.
Published: 01 September 2003
Fig. 1.  Distribution of the Hormuz salt and major structural domains (the Laristan domain, the Fars platform, the Kazerun–Mangarak, Izeh and Lorestan domains, and the Dezful embayment) and main faults (the Razak, Nezamabad, Kazerun and Bala Rud faults) along the Zagros belt.